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SPRING <strong>2006</strong><br />

THE UNIVERSITY OF MICHIGAN-DEARBORN<br />

COLLABORATIVE<br />

RESEARCH AND<br />

EDUCATION ISSUE


The <strong>Dearborn</strong> <strong>Engineer</strong><br />

<strong>Spring</strong> <strong>2006</strong><br />

3<br />

CHINA PARTNERSHIP<br />

News from the College <strong>of</strong><br />

<strong>Engineer</strong>ing and Computer Science,<br />

<strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong><br />

www.engin.umd.umich.edu<br />

Collaboration 1<br />

International Disaster Relief Team 2<br />

Partnership Program in China 3<br />

Group Develops Surgical Planning Tool 4<br />

UM–D Partners with Moroccan <strong>University</strong> 5<br />

Lear Airbag Systems Collaboration 6<br />

Game Design Project with CCS 7<br />

Ford Collaborates on Materials Research 8<br />

Team Furthers Fuel Cell Research 9<br />

UM–D and MSU Collaborate on Project 10<br />

French Student Program Evolves 11<br />

8 RESEARCH COLLABORATION<br />

New Visiting Committee Members 14<br />

Visteon: Driving Simulator Gift 15<br />

Teamwork Produces First CECS Contest 12<br />

<strong>Engineer</strong>ing News 16<br />

Faculty Research Awards 17<br />

2005 Donors 18<br />

Brick Program Donor List 20<br />

<strong>Engineer</strong>ing Pr<strong>of</strong>essional<br />

Development<br />

Annual Alumni Reception<br />

Inside back cover<br />

Back cover<br />

Editorial Board<br />

Subrata Sengupta, Ph.D., Dean<br />

Keshav S. Varde, Ph.D., Associate Dean<br />

Editor: Kathryn Tamborino<br />

11 EXCHANGE STUDENTS<br />

The <strong>Dearborn</strong> <strong>Engineer</strong> is published for the alumni<br />

and friends <strong>of</strong> the <strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong><br />

College <strong>of</strong> <strong>Engineer</strong>ing and Computer Science.<br />

Send correspondence to the Editor, <strong>Dearborn</strong> <strong>Engineer</strong>,<br />

4901 Evergreen Road, <strong>Dearborn</strong>, MI 48128-1491.<br />

Regents <strong>of</strong> the <strong>University</strong><br />

David A. Brandon, Laurence B. Deitch,<br />

Olivia P. Maynard, Rebecca McGowan,<br />

Andrea Fischer Newman, Andrew C. Richner,<br />

S. Martin Taylor, Katherine E. White,<br />

Mary Sue Coleman (ex <strong>of</strong>ficio)<br />

12 HIGH SCHOOL CONTEST<br />

Citizens Advisory Committee<br />

Ismael Ahmed, Stephen T. Economy, Linda P. Kughn,<br />

Patricia Mooradian, Timothy J. O’Brien, Jon Pepper,<br />

Michael C. Porter, Maria Leonhauser Rosenau,<br />

Shirley R. Stancato


SPRING <strong>2006</strong><br />

Collaboration Brings Together Educators,<br />

Students, Industry from Around the World<br />

As the world, its problems, and its<br />

technologies become increasingly complex,<br />

it becomes progressively more important to share and<br />

combine expertise to craft solutions. This issue <strong>of</strong> the<br />

<strong>Dearborn</strong> <strong>Engineer</strong> therefore focuses on some <strong>of</strong> the<br />

recent collaborative programs and efforts between<br />

the engineering staff and students in the College <strong>of</strong><br />

<strong>Engineer</strong>ing and Computer Science (CECS) and a<br />

wide assortment <strong>of</strong> individuals and institutions here<br />

and abroad.<br />

“Collaboration is absolutely crucial in an increasingly<br />

interconnected world,” says Dean Subrata Sengupta.<br />

“Not only are engineering tasks becoming more complex,<br />

requiring that we draw on skills from multiple disciplines,<br />

but also teams today are <strong>of</strong>ten multinational or based<br />

in multiple locations around the world. So successful<br />

collaboration includes the ability to work not only with<br />

folks from different disciplines but also with people from<br />

various cultures.”<br />

The recent collaboration with CCS on game design helps<br />

our faculty and students learn from each other and develop<br />

new skills on working within an interdisciplinary team.<br />

In the international arena, we now have exchanges with<br />

Sweden and China and have developed collaborative<br />

programs with the former Soviet Union, France, Spain,<br />

and Germany over the years.”<br />

With the explosion <strong>of</strong> the internet and the emergent<br />

global economy, collaboration is a trend that will only<br />

grow in importance in the coming years. “I’d like to see<br />

us branch out to work with universities in even more<br />

countries,” says Ed Williams, who initiated bringing the<br />

latest group <strong>of</strong> French students to CECS last year. “In the<br />

end, we have to learn to get along<br />

with each other.”<br />

Today, CECS is involved in more collaborative projects<br />

than ever before. This issue highlights a few <strong>of</strong> those<br />

projects, ranging from joint research with faculty and<br />

students in Pakistan, Morocco, Latvia, and Russia to a<br />

distance-learning program in China and a student<br />

exchange with France. Closer to home, articles in this<br />

issue showcase consultancies and research studies with<br />

corporations like Lear and Ford, interdisciplinary classes<br />

with the College for Creative Studies (CCS), combined<br />

research with local universities like Wayne State and UM-<br />

Ann Arbor, and the involvement <strong>of</strong> alumni in the development<br />

and execution <strong>of</strong> a successful engineering contest for<br />

area high school students.<br />

“We are becoming more and more global in our outlook,”<br />

says Sengupta, “collaborating with other institutions,<br />

both locally and globally, as well as with<br />

schools that have other skill sets. CCS, for example,<br />

brings an aspect <strong>of</strong> creativity to computer science<br />

and engineering that we don’t have.<br />

NIKOLAI SHILOV AND ALEXANDER SMIRNOV<br />

OF THE ST. PETERSBURG INSTITUTE FOR<br />

INFORMATICS AND AUTOMATION OF THE<br />

RUSSIAN ACADEMY OF SCIENCES


DEARBORN <strong>Engineer</strong><br />

International Team Studies Processes<br />

to Manage Disaster Relief, Health Care<br />

As Hurricane Katrina aptly demonstrated, when<br />

disaster strikes on a large scale, getting the right supplies to<br />

the right places on time is <strong>of</strong> paramount importance. A team<br />

<strong>of</strong> collaborators from universities in the U.S., Russia, and<br />

Latvia are working together to study issues related to planning,<br />

organizing, and committing resources aimed at providing<br />

disaster relief and managing health care costs.<br />

In 1999, the team began to form when Alexander Smirnov,<br />

head <strong>of</strong> a computer-aided integrated systems laboratory and<br />

deputy director for research at the St. Petersburg Institute<br />

for Informatics and Automation <strong>of</strong> the Russian Academy <strong>of</strong><br />

Sciences (SPIIRAS), arrived at UM-<strong>Dearborn</strong> to do a one-year<br />

sabbatical. While here, he and Charu Chandra, associate<br />

pr<strong>of</strong>essor <strong>of</strong> industrial and manufacturing systems engineering<br />

at UM-<strong>Dearborn</strong>, quickly discovered similar research<br />

interests and began to work together on solving supply-chain<br />

issues. To date, they have co-authored and published more<br />

than 20 research papers on such topics as supply-chain<br />

integration problems in the automotive industry. They<br />

have also organized lectures, workshops, and seminars<br />

together and regularly visit each other’s universities.<br />

and quickly,” says Chandra. “This will result in<br />

manning resources most efficiently when and where<br />

they’re most needed.”<br />

The team combines various models, or real-world simulations,<br />

together into hybrid models to test processes and approaches<br />

to solving these issues. “Each model has its characteristic<br />

strengths and weaknesses,” says Chandra. “So an adequate<br />

representation <strong>of</strong> complex behavior <strong>of</strong> enterprises and<br />

their networks is difficult if you use just a single model.<br />

Hybrid modeling combines optimization and simulation<br />

models in order to obtain a more comprehensive<br />

representation <strong>of</strong> the problem.”<br />

Chandra is excited about the team’s results thus far and their<br />

potential to achieve greater goals in the future. “I believe this<br />

collaborative effort has been a win-win proposition for my<br />

collaborators and me,” he says. “We are planning to continue<br />

to build on this relationship for a long time to come.”<br />

CHARU CHANDRA AND JANIS GRABIS<br />

Two other collaborators, Janis Grabis, associate<br />

pr<strong>of</strong>essor at the Institute <strong>of</strong> Information Technology,<br />

Riga Technical <strong>University</strong>, in Riga, Latvia, and Dr. Nikolai<br />

Shilov, who works with Smirnov at the integrated<br />

systems laboratory at SPIIRAS as a senior researcher,<br />

were invited to join the team during their doctorate<br />

and post-doctorate research at UM-<strong>Dearborn</strong>. Grabis<br />

has co-authored fifteen papers on supply-chain<br />

configuration with Chandra over the past five years.<br />

Today, the team is applying some <strong>of</strong> its combined<br />

research on manufacturing supply-chain concerns to<br />

issues surrounding the management <strong>of</strong> health care costs<br />

and disaster recovery efforts. “We’re looking at strategic<br />

as well as operational models to enhance process<br />

improvements,” says Chandra. “The process improvements<br />

we plan to propose will ideally improve logistics<br />

throughout the health care supply chain, which should<br />

enhance health care and bring down costs for both<br />

key stakeholders and ultimately the patient.”<br />

In particular, the team is modeling techniques to<br />

improve the way and speed in which information is<br />

created, handled, and shared. “We want to help<br />

make it possible to react speedily in a fast-changing,<br />

uncertain environment, like the one faced by disaster<br />

workers, by suggesting appropriate logistics-related<br />

alternatives to help them make decisions accurately<br />

2


SPRING <strong>2006</strong><br />

Educational Partnership with China<br />

Furthers Expertise, Understanding<br />

Four years ago, Yubao Chen,<br />

pr<strong>of</strong>essor <strong>of</strong> industrial and<br />

manufacturing systems<br />

engineering, went to China<br />

on sabbatical and visited several<br />

universities. While there, he began<br />

to consider the benefits <strong>of</strong> an<br />

educational association with China<br />

and set in motion what has today<br />

become the Partnership Program in<br />

China, with the collective efforts <strong>of</strong><br />

several <strong>of</strong> the college’s faculty and<br />

staff members. “Education must be<br />

globalized,” says Chen. “Its focus can<br />

no longer remain purely local. When<br />

I go to China, I see companies from<br />

the U.S., Japan, Germany, and other<br />

countries working there. Our customers,<br />

like Ford, are in China now. We<br />

need to be able to keep up with the<br />

rapidly changing needs <strong>of</strong> industry.”<br />

The Partnership Program in China<br />

at UM-<strong>Dearborn</strong> <strong>of</strong>fers a master’s<br />

degree in automotive systems<br />

engineering to qualified Chinese<br />

students through three universities<br />

in China: Xian Jiaotong <strong>University</strong>, Tongji <strong>University</strong>, and<br />

Chongqing <strong>University</strong>. Students must complete 30 credit<br />

hours <strong>of</strong> interdisciplinary study through online courses<br />

<strong>of</strong>fered by UM-<strong>Dearborn</strong>. They also complete a capstone<br />

project, which allows Chinese students to team together<br />

with engineering students in <strong>Dearborn</strong> over the internet<br />

and potentially through internships here. Once the program<br />

reaches a sufficient size, faculty from UM-<strong>Dearborn</strong> will also<br />

travel to China for short periods to meet with students and<br />

<strong>of</strong>fer live tutoring, feedback, and lectures. Chinese faculty<br />

will provide tutoring on an ongoing basis.<br />

An undergraduate program, which would feature course<br />

<strong>of</strong>ferings from Shanghai <strong>University</strong> <strong>of</strong> <strong>Engineer</strong>ing and<br />

Science with guidance from UM-<strong>Dearborn</strong>, is currently in<br />

the planning stages. Both programs <strong>of</strong>fer students from<br />

China the opportunity to come to <strong>Dearborn</strong> to complete<br />

their studies or do internships here.<br />

Faculty will also visit one another’s universities for longer<br />

periods under this partnership to work with and learn<br />

YUBAO CHEN (LEFT) AND UM–D PROVOST ROBERT SIMPSON (RIGHT) DURING A VISIT TO<br />

TONGJI UNIVERSITY IN SHANGHAI<br />

from each other. “The faculty exchange program allows<br />

us to not only help educators in China but also to benefit<br />

from their expertise and knowledge here,” says Chen.<br />

“Both sides benefit when we collaborate.”<br />

There are currently four students admitted in the graduate<br />

program, which is slated to begin in the summer or<br />

fall. “We have had far more applicants, many <strong>of</strong> whom are<br />

good engineers,” says Chen, “but the English language<br />

requirement is a stumbling block. Finances are also an<br />

issue for Chinese students.”<br />

“In China, they believe that American higher education is<br />

the best in the world,” says Chen. “If they have a chance<br />

to study here, that’s their first choice. Our program is<br />

strong; I have no doubt that we can attract quality<br />

students to come here. In addition to simply increasing<br />

our enrollment, I believe they would greatly enhance<br />

our student life here on campus. Education is something<br />

we can use to help each other understand one another,<br />

our values, our way <strong>of</strong> doing things. That’s why I’m<br />

involved in this.”<br />

3


DEARBORN <strong>Engineer</strong><br />

Collaborative Team Develops Tool to<br />

Predict Surgical Paths through the Brain<br />

A collaborative project<br />

between UM-<strong>Dearborn</strong>,<br />

Wayne State <strong>University</strong>,<br />

and UM-Ann Arbor<br />

hopes to provide the means<br />

for neurosurgeons to use<br />

computers to help them remove<br />

brain tumors. Dr. William Grosky,<br />

pr<strong>of</strong>essor and chair <strong>of</strong> computer<br />

and information science at<br />

UM-<strong>Dearborn</strong>, is working<br />

with the computer science<br />

department at Wayne State,<br />

Dr. Murali Guthikonda at UM’s<br />

medical school, and a Ph.D.<br />

student at UM-Ann Arbor to<br />

help develop a tool that will<br />

enable surgeons to predict a safe<br />

pathway into the brain.<br />

“A key component <strong>of</strong> computerassisted<br />

neurosurgery is a<br />

surgical preplanning step, in<br />

which the surgeon needs to<br />

plan a path <strong>of</strong> entry to a tumor<br />

that needs to be removed,” says<br />

Grosky. “The goal <strong>of</strong> this preplanning<br />

step is to find a path<br />

that causes the least damage.”<br />

WILLIAM GROSKY<br />

Due to the current instrumentation,<br />

this path through the brain is always a straight line.<br />

Surgeons must figure out which structures within the brain<br />

will be affected by any given path before deciding how to<br />

proceed. Grosky’s team is working on a way to predict that<br />

path in three dimensions, based on the patient’s unique<br />

physiology. Other teams are also contributing to the project,<br />

solving such problems as isolating different structures <strong>of</strong> the<br />

brain and representing them in three dimensions through a<br />

process known as segmentation.<br />

“High-resolution images <strong>of</strong> the brain can be obtained using<br />

magnetic resonance imaging (MRI) both before and during<br />

the surgery,” says Grosky. “Through segmentation, different<br />

anatomical features are identified and broken down<br />

into polygonal regions suitable for storage. We’re looking<br />

at defining which brain structures intersect with potential<br />

surgical trajectories that originate from a number <strong>of</strong> chosen<br />

points on the surface <strong>of</strong> the brain and end in the tumor.”<br />

To perform this task, Grosky’s team is using a new type<br />

<strong>of</strong> spatial query called a radial query. The radial query is<br />

represented by a line in multidimensional space rather than<br />

simply in two dimensions. “The results <strong>of</strong> the query are<br />

all objects in a data set that intersect the line, or all parts<br />

<strong>of</strong> the brain that will be touched by a given path to the<br />

tumor,” says Grosky. “The goal is to find a path that<br />

causes the least damage.”<br />

“The outcome will hopefully be commercialized to<br />

neurosurgeons,” says Grosky. “The overall goal <strong>of</strong> this<br />

project, and other similar projects, is to develop a commercial,<br />

cost-effective, and accurate product we’re calling Smart<br />

Image-Guided Neurosurgery System (SIGNS). The product<br />

will be used in image-guided surgery and will generate safe<br />

and accurate surgical corridors. These surgical corridors will<br />

take into account the potential brain structure movement<br />

and deformation during surgery. SIGNS will also monitor and<br />

predict deformation during surgery, and provide accurate<br />

and real-time intra-operative information to the surgeon.”<br />

Funded by a 2003 grant from the <strong>Michigan</strong> Life Science<br />

Corridor, Grosky’s team finishes its current project phase<br />

this summer, but future proposals are currently under<br />

development. “It’s going very well,” he says.<br />

4


SPRING <strong>2006</strong><br />

Team Seeks to Find Better Search<br />

Methods for Content Retrieval<br />

Along with the dramatic rise <strong>of</strong> multimedia<br />

technology and digitized documents has come<br />

the emergent problem <strong>of</strong> finding the files or information<br />

one needs. As a result, it has become increasingly critical<br />

to develop accurate and powerful ways to search for data.<br />

While well-known search engines like Google have provided<br />

a means to perform text searches, a useful way to search by<br />

more complex image and video data remains elusive.<br />

William Grosky, pr<strong>of</strong>essor and chair <strong>of</strong> computer and<br />

information science at UM-<strong>Dearborn</strong>, is working with<br />

a team <strong>of</strong> collaborators from Université Mohammed<br />

V-Agdal, in Rabat, Morocco, to develop improved methods<br />

for information retrieval. Collaborators from Rabat include<br />

Dr. Driss Aboutajdine, head <strong>of</strong> the university’s computer<br />

science and telecommunications research laboratory, and<br />

Ph.D. student Fadoua Ataa-Allah, who splits her time<br />

between Morocco and <strong>Dearborn</strong>. “I am quite interested<br />

in this field,” says Ataa-Allah, “in part because it is<br />

relatively new, and also because few applications<br />

currently exist for the Arabic language.”<br />

The team is focusing on both text and image retrieval<br />

strategies. “A text retrieval is like a Google search, where<br />

the user supplies keywords and phrases and the system<br />

attempts to retrieve the most relevant documents, such<br />

as articles and web pages,” says Grosky. “We’re currently<br />

examining the details <strong>of</strong> some search techniques using<br />

linear algebraic techniques, which have shown much<br />

better results than standard techniques. We’re attempting<br />

to capture the core meaning <strong>of</strong> a document without being<br />

misled by various unimportant pieces <strong>of</strong> information.”<br />

The team also hopes to apply these techniques to contentbased<br />

retrieval, which goes beyond finding text files in<br />

addressing the far more complicated content <strong>of</strong> images.<br />

“There is an even greater demand for retrieval and<br />

management tools for visual data,” says Grosky. Image<br />

retrieval techniques should provide support for user queries<br />

in an effective and efficient way, just as conventional<br />

information retrieval does for textual retrieval.”<br />

Challenges here include going beyond a relatively<br />

straightforward search, like “lions,” and going to a more<br />

high-level, abstract search, like “peaceful scenes.” Factors<br />

to consider include color ranges, texture, and shape, as<br />

well as the more-difficult-to-pinpoint semantics, which<br />

vary from user to user.<br />

“As the ultimate goal <strong>of</strong> image retrieval is to serve the needs<br />

and wants <strong>of</strong> users who may not even know what they are<br />

looking for but can recognize it when they see it, there has<br />

been much work done in trying to discover what is in the<br />

mind <strong>of</strong> the user,” says Grosky. “Needless to say, human<br />

beings are much better than computers at extracting and<br />

making use <strong>of</strong> semantic information from images.”<br />

Ataa-Allah, who hopes to finish her Ph.D. within the<br />

coming year, continues to find the collaborative project<br />

rewarding. “Working in collaboration with Drs. Aboutajdine<br />

and Grosky is very interesting to me,” she says. “I benefit<br />

primarily from their competence and research experience,<br />

and secondly from their knowledge <strong>of</strong> my subject. This<br />

work is particularly important because <strong>of</strong> the current<br />

explosion <strong>of</strong> available data. We must find an improvement<br />

over the text retrieval systems we have today.”<br />

“This work is technically important,” agrees Aboutajdine,<br />

“but my hope is that it will also result<br />

in tools that can help American<br />

and Arab people understand<br />

one another better.”<br />

FADOUA ATAA-<br />

ALLAH (LEFT) AND<br />

PH.D. STUDENT<br />

MAJDOULINE HANFI<br />

(RIGHT)<br />

5


DEARBORN <strong>Engineer</strong><br />

Graduate Course Leads to<br />

Airbag System Project with Lear<br />

A graduate course in<br />

pattern recognition<br />

brought Malayappan<br />

Shridhar, pr<strong>of</strong>essor and chair<br />

<strong>of</strong> electrical and computer<br />

engineering, to Lear Corporation<br />

and led to a two-year consultancy<br />

there that ended in 2005.<br />

Karl Kennedy, a senior engineer<br />

at Lear and graduate student in<br />

electrical engineering, was<br />

taking Shridhar’s class in 2003<br />

while doing advanced product<br />

development for embedded<br />

systems at Lear’s seating and<br />

electrical divisions. “In my<br />

class I mentioned several case<br />

studies in which I was the<br />

principal investigator,” says<br />

Shridhar. “I guess Karl felt that<br />

I was the ideal person to help<br />

Lear with its project.”<br />

6<br />

Kennedy introduced Shridhar to<br />

his associates, which opened up<br />

opportunities for discussion. “Lear<br />

had a deadline to meet and they were looking for a local<br />

expert to help them tackle some challenging issues,” says<br />

Shridhar. “They had a good system, but it needed critical<br />

refinements. My prior record and my easy availability were<br />

two factors that influenced Lear to hire me.”<br />

KARL KENNEDY AND MALAYAPPAN SHRIDHAR<br />

The project on which Lear required Shridhar’s help dealt<br />

with an airbag activation system that could detect the size<br />

and weight <strong>of</strong> a person sitting in a vehicle’s seat. “While<br />

airbags have generally functioned very well and have saved<br />

innumerable lives, there have been some passenger deaths<br />

attributed to the forceful activation <strong>of</strong> the airbag,” says<br />

Shridhar. “Children and some lightweight people have been<br />

the primary victims.”<br />

Prompted by these deaths, the National Highway Traffic<br />

Safety Administration developed a new standard for<br />

airbag activation and has mandated that these devices be<br />

incorporated in all future cars beginning sometime this year.<br />

This new standard requires the safety system to recognize<br />

the type <strong>of</strong> person in the passenger seat, based on one<br />

<strong>of</strong> a set <strong>of</strong> defined size and weight categories.<br />

“Lear was developing an airbag activation system that<br />

would categorize the passenger as belonging to one <strong>of</strong><br />

the prescribed categories and accordingly send the correct<br />

signal to the airbag activation system,” says Shridhar.<br />

“They used an array <strong>of</strong> sensors embedded in the seat and<br />

devised an algorithm to process the sensor data and decide<br />

on the category <strong>of</strong> the passenger. It was this area where my<br />

expertise was required. I helped Lear design a sensor-based<br />

passenger classification system. I helped them to conduct<br />

detailed misclassification analysis, sensitivity analysis, and<br />

sensor failure analysis. This allowed them to develop an<br />

accurate and robust passenger classification system.”<br />

Most <strong>of</strong> Shridhar’s research for Lear involved data-mining to<br />

determine possible overlaps among categories, sensitivity<br />

analysis, and optimal sensor configuration. He worked as part<br />

<strong>of</strong> a team <strong>of</strong> materials, mechanical, and electrical engineers<br />

within Lear, including director John Nathan, mechanical engineer<br />

Oliver Young, and Kennedy.<br />

“Even my son, who has a dual bachelor’s degree in electrical<br />

engineering and computer engineering from UM-<br />

<strong>Dearborn</strong>, assisted,” says Shridhar. “He helped me develop<br />

the analysis s<strong>of</strong>tware and its graphical display.”<br />

At the conclusion <strong>of</strong> Shridhar’s consultancy, Lear had a<br />

fully developed, working system. Today, it is being marketed<br />

to industry. “Hopefully, car manufacturers in the<br />

U.S., Europe, and elsewhere will find the Lear system the<br />

best product on the market for its price and performance,”<br />

he says. “This was a personally rewarding experience. I<br />

am particularly happy that my graduate course resulted in<br />

this consultancy.”


SPRING <strong>2006</strong><br />

Game Design Course Brings<br />

UM-<strong>Dearborn</strong> and CCS Students Together<br />

A group <strong>of</strong> s<strong>of</strong>tware engineering students<br />

from UM-<strong>Dearborn</strong> and graphic design<br />

students from the Center for Creative<br />

Studies (CCS) have found a productive way to<br />

combine work and play. Students who participate in<br />

the new course Game Design and Implementation 2<br />

work in teams to create actual 3D computer games.<br />

The two games under development this spring are<br />

Insect Wars, a real-time strategy game, and Noon <strong>of</strong><br />

the Dead, a first-person shooter.<br />

The games were selected by class vote during the winter<br />

after each student presented a high-level game idea.<br />

The winning game idea (created by Dustin Kelley from<br />

UM-<strong>Dearborn</strong> and James Kells from CCS) was chosen by<br />

a vote among the CCS and UM-D students, says Bruce<br />

Maxim, associate pr<strong>of</strong>essor <strong>of</strong> computer and information<br />

science, for different reasons. “The potential for interesting<br />

visual effects seemed to dominate the thinking from<br />

CCS students,” he says, “while the UM-<strong>Dearborn</strong> students<br />

looked more at the potential for interesting game play.”<br />

The class’s collaborative approach to game development<br />

came about when Maxim and William Grosky, chair and<br />

pr<strong>of</strong>essor <strong>of</strong> computer and information science,<br />

began to look into creating a game<br />

development camp for high school students.<br />

They realized they would need assistance<br />

in game art and design, so they approached<br />

CCS. Out <strong>of</strong> that meeting, CCS faculty member<br />

Ben Ridgway and Maxim agreed to teach<br />

a game design course together and allow<br />

students from the two disciplines to learn<br />

from each other.<br />

Students meet with each other at both campuses and<br />

also share files through an online depository. They also<br />

use chat rooms and electronic meeting s<strong>of</strong>tware to<br />

communicate requirements and progress. Maxim<br />

provides lectures on 3D graphics and artificial intelligence<br />

for games, but most <strong>of</strong> his project input focuses on<br />

coaching and critiquing the evolving games.<br />

“The primary debate in the class focuses on limiting<br />

feature creep and which elements they should add within<br />

each incremental phase <strong>of</strong> the project,” says Maxim.<br />

“The artists want to add more and more to the game<br />

artistic elements, but the teams are required to stick with<br />

a production schedule. Both groups <strong>of</strong> students are working<br />

as true collaborators in multidisciplinary teams.”<br />

Maxim and Ridgway hope to make enough progress<br />

this semester to allow the students to enter the two<br />

games in the International Game Developers Association<br />

student competition next year. “They’re doing a great job,<br />

so I’m hopeful,” he says. “I think this collaboration gives<br />

the students a good sense <strong>of</strong> what working on a large<br />

game project is about.”<br />

The students work in two teams, each<br />

focusing on a different game. Each team<br />

contains both engineering and graphic<br />

design students. S<strong>of</strong>tware engineering<br />

students from UM-<strong>Dearborn</strong> manage the<br />

project, set the development schedule, and<br />

set the game requirements in collaboration<br />

with the CCS students. The CCS students<br />

contribute graphical design, screen layouts,<br />

and artwork according to the technical<br />

specifications set by the engineering<br />

students. Both groups <strong>of</strong> students work<br />

together to develop the story lines for the<br />

games. The engineering students define the<br />

scope for each incremental phase <strong>of</strong> their<br />

project, and determine which multimedia<br />

game assets and graphics are needed for<br />

the evolving game prototype.<br />

UM-D AND CCS TEAM MEMBERS COLLABORATED ON A GAME DESIGN PROJECT<br />

THIS PAST SEMESTER.<br />

7


DEARBORN <strong>Engineer</strong><br />

Ford Works with UM-<strong>Dearborn</strong><br />

Students, Faculty to Study Corrosion<br />

<strong>of</strong> Lightweight Materials<br />

As gas prices climb, the push to create more<br />

fuel-efficient cars intensifies. For years, the automotive<br />

industry has sought to reduce the weight <strong>of</strong> vehicles<br />

through the study <strong>of</strong> lightweight materials. Today,<br />

some <strong>of</strong> the more promising lightweight materials<br />

under scrutiny are magnesium alloys.<br />

“Magnesium alloys are among the lightest <strong>of</strong> all<br />

structural metals,” says Pankaj Mallick, pr<strong>of</strong>essor <strong>of</strong><br />

mechanical engineering and director <strong>of</strong> interdisciplinary<br />

programs at UM-<strong>Dearborn</strong>. “It is abundantly available<br />

but has not yet been used in any quantity at all. There<br />

are still many unknowns about how it will behave in an<br />

automotive environment.”<br />

About three years ago, Mallick’s longtime associate<br />

Dr. Robert McCune, technical leader <strong>of</strong> the Corrosion<br />

Group at Ford Motor Company’s Research and Innovation<br />

Laboratory, contacted Mallick to discuss a proposed<br />

Department <strong>of</strong> Energy project through the United States<br />

Automotive Materials Partnership (USAMP) to study<br />

corrosion <strong>of</strong> magnesium. Ultimately, UM-<strong>Dearborn</strong> became<br />

one <strong>of</strong> four universities across the country to win grant<br />

money to pursue several different research projects on<br />

magnesium. Since then, Mallick and McCune have worked<br />

closely on the project with a small team <strong>of</strong> graduate students<br />

from UM-<strong>Dearborn</strong>. This year, a postdoctoral research<br />

associate from Australia is expected to join the project.<br />

“Bob [McCune] was instrumental in getting us involved in<br />

the USAMP project,” says Mallick. “He also <strong>of</strong>fered us the<br />

use <strong>of</strong> Ford’s excellent experimental facilities and took on a<br />

mentoring role as well as a collaborative one.” McCune and<br />

other Ford staff initially helped the students learn how to<br />

use the equipment at Ford’s facilities. The team also uses<br />

labs at UM-<strong>Dearborn</strong> and the ion beam laboratory at<br />

UM-Ann Arbor.<br />

At the start <strong>of</strong> the project, the team studied and<br />

evaluated methods for testing corrosion in magnesium<br />

alloys, which can differ from those used when testing<br />

better-understood materials like steel or aluminum. “The<br />

first phase <strong>of</strong> the project involved comparing different<br />

test methods,” says Mallick. “Now we’re starting the<br />

next phase, which examines how<br />

magnesium alloys corrode in the<br />

presence <strong>of</strong> engine coolants. We<br />

want to see how magnesium<br />

alloys would react if we used<br />

them to build an engine block.”<br />

The two original graduate<br />

students on the project did their<br />

dissertations based on their<br />

research. McCune participated<br />

on their dissertation committees<br />

and plans to continue to<br />

co-supervise the next students<br />

who will be working on the<br />

project. “His participation as a<br />

mentor and advisor has been<br />

invaluable,” says Mallick. “Overall,<br />

the collaboration has been a very<br />

helpful and productive one.”<br />

PANKAJ MALLICK


SPRING <strong>2006</strong><br />

International Collaboration<br />

Furthers Fuel Cell Research<br />

Tariq Shamim, associate pr<strong>of</strong>essor <strong>of</strong><br />

mechanical engineering, has extended<br />

his work on fuel cell research to include<br />

collaboration with N.E.D. <strong>University</strong> <strong>of</strong><br />

<strong>Engineer</strong>ing and Technology in Karachi,<br />

Pakistan. In December <strong>of</strong> 2004, Shamim<br />

visited the university at the end <strong>of</strong><br />

his sabbatical leave and delivered a<br />

series <strong>of</strong> lectures on his research. “Our<br />

collaboration together began during<br />

informal discussions with the faculty<br />

members there,” he says.<br />

Shamim and Roohul-Qadeer Hamid,<br />

pr<strong>of</strong>essor and chair <strong>of</strong> automotive and<br />

marine engineering in Karachi, are<br />

working together to supervise N.E.D.<br />

automotive engineering doctoral<br />

student Amber Zafar, who is studying<br />

fuel cells. “I’m providing guidance on<br />

various aspects <strong>of</strong> her thesis work,”<br />

says Shamim, “including helping her<br />

to develop a formal thesis proposal<br />

and research plan and methodology. I’m<br />

also monitoring and reviewing<br />

her research progress.”<br />

TARIQ SHAMIM<br />

Through experimental and numerical<br />

investigation <strong>of</strong> the transport mechanism<br />

within the fuel cell stack, Shamim and Zafar are studying<br />

the effect <strong>of</strong> various impurities on fuel cell performance.<br />

The main objective <strong>of</strong> the research is to improve fuel cell<br />

performance through more efficient design.<br />

“Mobile and stationary energy conversion systems play<br />

a major role in contributing to air pollution and fossil fuel<br />

utilization,” says Shamim. “The scenario is getting even<br />

more complicated by the predictions that oil and gas<br />

reserves may not keep up with the world demand.<br />

These challenges require that efficient energy conversion<br />

systems be developed and utilized in mobile and<br />

stationary applications. It is equally important that<br />

these systems be economically viable and environmentally<br />

sound. Fuel cell technology presents a promising<br />

candidate for achieving improvement in energy<br />

conversion efficiency and reducing air pollution.”<br />

secured through N.E.D. <strong>University</strong> and Pakistani<br />

national agencies.<br />

Shamim finds the collaboration beneficial on a number <strong>of</strong><br />

levels. “It allows me to work with a fully funded student<br />

to help further this research,” he says. “It also allows me<br />

to use N.E.D.’s state-<strong>of</strong>-the-art fuel cell control unit, and it<br />

provides my work with a more global aspect. I’m also able<br />

to bring a certain expertise to N.E.D. that they currently<br />

lack. We all benefit.”<br />

Although Zafar is expected to graduate in two years,<br />

Shamim anticipates that the collaboration will continue<br />

on other projects. “International collaboration is extremely<br />

useful in bringing an international perspective to the<br />

classroom,” he says. “It helps us prepare students to<br />

compete globally.”<br />

Although most <strong>of</strong> their communication is through email,<br />

Shamim visits Karachi annually, and plans are being made<br />

to bring Zafar to <strong>Dearborn</strong> in the near future. Funding is<br />

9


DEARBORN <strong>Engineer</strong><br />

UM-D and MSU Partner to Deliver New<br />

Methods <strong>of</strong> Database Indexing<br />

Collaboration between UM-<br />

<strong>Dearborn</strong> and <strong>Michigan</strong> State<br />

<strong>University</strong> (MSU) is producing<br />

potentially groundbreaking results<br />

in a relatively new field within database<br />

indexing. Most existing databases allow<br />

efficient searches using indexing based on<br />

ordered information, such as alphabetical or<br />

numeric lists. But some data, such as genetic<br />

codes, have no such natural ordering.<br />

This sort <strong>of</strong> unordered database is said to<br />

belong to multidimensional non-ordered<br />

discrete data spaces (NDDS), and no efficient<br />

way to search them currently exists.<br />

CECS associate pr<strong>of</strong>essor <strong>of</strong> computer<br />

science Qiang Zhu believes that he and<br />

MSU pr<strong>of</strong>essor <strong>of</strong> computer science Sakti<br />

Pramanik, together with their team <strong>of</strong><br />

graduate and undergraduate students,<br />

are in the process <strong>of</strong> developing two possible<br />

index methods to handle efficient NDDS searches.<br />

“Existing index methods either cannot be directly applied<br />

to searching this type <strong>of</strong> database or provide only suboptimal<br />

performance,” says Zhu. “Our joint research team has<br />

developed two novel index methods, and theoretical and<br />

empirical studies have shown that each is quite promising<br />

in supporting efficient NDDS searches. We expect that the<br />

research results from this project will have a significant<br />

impact on indexing techniques in the database field.”<br />

The challenge has become acute in recent years with<br />

scientists trying to search for information within the vast<br />

and growing genome database. Genome sequences follow<br />

no alpha-numeric ordering, and database searches were<br />

slow and inefficient. On a 2002 sabbatical at MSU, Zhu<br />

and Pramanik discussed potential solutions and decided to<br />

work together to solve the problem. Their project initially<br />

received seed money from UM-<strong>Dearborn</strong> and UM-Ann<br />

Arbor. After overcoming numerous challenges, their preliminary<br />

results were presented at the VLDB (Very Large<br />

Data Bases) conference in 2003.<br />

In 2005, they won funding from the National Science<br />

Foundation (NSF), and their more recent results have<br />

appeared in Association for Computing Machinery journals<br />

Transactions on Database Systems and Transactions<br />

on Information Systems. Today the team includes three<br />

graduate and three undergraduate students from both<br />

universities.<br />

QIANG ZHU AND GRADUATE STUDENT RESEARCH ASSISTANT HYUN-JEONG SEOK<br />

The group calls its new index methods the ND- (nonordered<br />

discrete) and the NSP- (non-ordered space<br />

partitioning) trees. “Unlike the index you might see at<br />

the back <strong>of</strong> a book, an index for a database is organized as<br />

a tree rather than a simple list,” says Zhu. “When you ask<br />

for a piece <strong>of</strong> information, the search in the database follows<br />

a path from the root <strong>of</strong> the tree through what we call<br />

nodes—like branches—and eventually to a “leaf”<br />

containing the address within the database <strong>of</strong> the piece<br />

<strong>of</strong> information you wanted. That address is returned to<br />

you, and you can then pull up the information.”<br />

The trees are multidimensional, but the challenge is to<br />

keep the tree relatively “short” and without much extra<br />

space in order to return results quickly. It also helps to<br />

keep the trees from having too much overlap, which<br />

would also reduce search time. The team’s ND-tree solves<br />

the problem <strong>of</strong> keeping tree space down, while the NSPtree<br />

eliminates overlapping. “Each method has its pros<br />

and cons,” says Zhu.<br />

NSF funding for the project is anticipated to last until<br />

2008, but Zhu expects the project to continue beyond<br />

that. “Research will go on for several more years,” he<br />

says, “since new and interesting issues continue to<br />

emerge. No one else has done similar work in developing<br />

index methods specifically for non-ordered, discrete data.<br />

That’s why our project is unique.”<br />

10 10


SPRING <strong>2006</strong><br />

French Student<br />

Program Mutually<br />

Beneficial<br />

When the French student program at the<br />

College <strong>of</strong> <strong>Engineer</strong>ing and Computer Science<br />

was in its discussion stages a few years ago, total<br />

immersion in the English language arose as a key<br />

selling point. “When I attended a conference in 2001 at<br />

the École Polytechnique Universitaire de Marseille,” says<br />

Ed Williams, adjunct lecturer at UM-<strong>Dearborn</strong>’s School<br />

<strong>of</strong> Management and the Department <strong>of</strong> Industrial and<br />

Manufacturing Systems <strong>Engineer</strong>ing, “Pr<strong>of</strong>essor Aziz<br />

Naamane mentioned that he wanted to send some <strong>of</strong> his<br />

best engineering students to areas where French was not<br />

spoken.” Williams readily agreed to collaborate, and the<br />

first batch <strong>of</strong> French students from École Polytechnique<br />

arrived in 2003.<br />

English through immersion continues to be a major draw<br />

for the program. This past summer, a second group <strong>of</strong><br />

French engineering students spent two months studying<br />

at CECS, and the five young scholars found the experience<br />

highly rewarding. “We wanted to come to the U.S. in<br />

order to improve our English,” says École Polytechnique<br />

student Sandrine Daunizeau, “but we also wanted to<br />

experience American society and learn about the way<br />

Americans think. We really enjoyed meeting Americans;<br />

they were so friendly.”<br />

BACK ROW: ONUR ULGEN, PIERRE HERRIBERRY, LUDOVIC BERAIZIAT, ED WILLIAMS<br />

FRONT ROW: CHRISTOPHE DOSI, MARJOLAINE HERBERT, SANDRINE DAUNIZEAU<br />

As their English language skills noticeably improved, the<br />

five students—Daunizeau, Ludovic Beraiziat, Christophe<br />

Dosi, Marjolaine Herbert, and Pierre Herriberry—managed<br />

to visit other North American cities and sites, including<br />

Chicago, Toronto, Niagara Falls, and New York City. “New<br />

York impressed us,” says Daunizeau. “We had never<br />

before seen skyscrapers like that.”<br />

Even their work at CECS, which focused on investigating<br />

and developing instructional case studies for various<br />

analytical s<strong>of</strong>tware packages, broadened their international<br />

perspective. With the help <strong>of</strong> program coordinators Joan<br />

Mr<strong>of</strong>ka and Emily Wang, the students were able to have<br />

numerous informal conversations about industrial<br />

engineering, culture, and academic research with other<br />

scholars from not only the U.S. but also the Sudan, Japan,<br />

Mexico, and Russia.<br />

Through industry connections, the students were<br />

introduced to some local companies, where they observed<br />

how industrial engineering techniques are applied in<br />

the U.S. “We had more interactions with local, working<br />

industrial engineers than we were able to provide with<br />

the first group <strong>of</strong> French students,” says Onur Ulgen,<br />

pr<strong>of</strong>essor <strong>of</strong> industrial and manufacturing systems<br />

engineering. Ulgen oversaw the students’ research in the<br />

simulation and automation laboratory.<br />

The laboratory, located in the new engineering complex,<br />

houses s<strong>of</strong>tware packages for course or independent<br />

study work such as the case studies examined by the<br />

École Polytechnique students. “Because the French curriculum<br />

does not go into detail on several applied topics,<br />

such as simulation and scheduling, we focused on those<br />

tools and their applications in detail,” says Ulgen.<br />

The benefits <strong>of</strong> the program have not been one-sided,<br />

however. “Through the students, we learned about curricula<br />

and instructional methods in France,” says Williams.<br />

“And when old friends <strong>of</strong> mine from Ford met the students,<br />

they obtained a better understanding <strong>of</strong> European<br />

students’ training and qualifications.”<br />

Although there are currently no formal plans to expand<br />

the program, Williams continues to have periodic, tentative<br />

discussions with colleagues in Italy, France, Sweden,<br />

and Latvia. “It’s a small planet,” he explains. “Programs<br />

like this help us all get along.”<br />

11


DEARBORN <strong>Engineer</strong><br />

Faculty, Students, and Alumni<br />

Work Together to Make <strong>Engineer</strong>ing<br />

“Real” to High School Students<br />

This past March, UM-<strong>Dearborn</strong>’s College <strong>of</strong> <strong>Engineer</strong>ing and<br />

Computer Science and its Alumni Affiliate worked together<br />

to run a highly successful contest for area high school<br />

students. The contest, which was open at no cost to high<br />

school juniors and seniors, featured two categories:<br />

engineering and computer programming. Students entered<br />

one or the other category as individuals or as two-person<br />

teams to compete for cash or tuition prizes. The first-place<br />

team members in each category received their choice <strong>of</strong><br />

either a $2,000 partial tuition scholarship at CECS or a $500<br />

cash award. Second- and third-place team members received<br />

Barnes & Noble gift cards <strong>of</strong> $200 and $100.<br />

12<br />

In addition to participating in the actual contests, entrants<br />

heard from CECS students and faculty about issues related<br />

to the fields and study <strong>of</strong> engineering and computer science,<br />

culminating with demonstrations <strong>of</strong> various student projects,<br />

including award-winning Baja vehicles and robots. Alumni<br />

also spoke about their current work in the industry.<br />

Two juniors from the Plymouth-Canton Centennial<br />

Educational Park, Eric Marion and Jake Poznanski, won the<br />

computer programming contest, while seniors Jakob Yonan<br />

and Suraj Bhamra from Henry Ford II High School in Sterling<br />

Heights won the engineering competition. Their sponsors<br />

were teachers Ron Carlson and Scott Spry, respectively.<br />

“The contest was designed to increase opportunities for<br />

high school students to participate in an event that emphasized<br />

technical capabilities and skills,” says Dean Subrata<br />

Sengupta. “The Alumni Affiliate truly spearheaded making<br />

this event become a reality. They not only pursued the<br />

original idea but also played a strong role in making sure<br />

that all the different groups <strong>of</strong> people required to make this<br />

work were kept together. In particular, John Cole, chair <strong>of</strong><br />

the Alumni Affiliate, provided great leadership in getting faculty,<br />

volunteers, alumni, and high school students together.<br />

Between John and Kathryn Tamborino, communication and<br />

external relations manager, the event was very well organized.<br />

Also, people from the student advising <strong>of</strong>fice played a<br />

major role in its success.”<br />

“This contest is the culmination <strong>of</strong> a vision the CECS<br />

alumni board has had for the past two years,” says Cole.<br />

“We wanted to dispel the common myth that the field <strong>of</strong><br />

engineering in this country is dying. And we wanted to<br />

provide a chance for high school students to experience<br />

engineering, not just hear about it. We wanted them to<br />

experience first-hand what engineering looks and feels<br />

like. In the process, we got a chance to show <strong>of</strong>f UM-<br />

<strong>Dearborn</strong> and expose<br />

many high school<br />

juniors and seniors to<br />

who and what we are.”<br />

The computer programming<br />

competition featured<br />

five problems for<br />

the teams to solve within<br />

a two-hour timeframe.<br />

The problems, designed<br />

and judged by Alumni<br />

Affiliate member Henry<br />

Hojnacki and faculty<br />

members from the computer<br />

and information<br />

science (CIS) department,<br />

required the teams<br />

to create a program to<br />

unscramble an encrypted<br />

message based on a<br />

rotating cypher, calculate<br />

all possible times for a<br />

broken Martian clock based on LED bars displayed, design<br />

an Olympic scoring program, program a box that serves text<br />

messages to cell phones, and calculate how many squares<br />

<strong>of</strong> cloth could be produced from a shipment <strong>of</strong> material with<br />

a cutting system that operated on specific parameters. The<br />

winning team completed all five problems successfully in<br />

approximately 90 minutes.<br />

“I got involved in the contest so that our department<br />

might attract more bright computer science students,”<br />

says Bruce Elenbogen, associate pr<strong>of</strong>essor <strong>of</strong> computer


SPRING <strong>2006</strong><br />

<strong>Engineer</strong>ing<br />

Contest Winners<br />

1ST PLACE<br />

Jakob Yonan<br />

and Suraj Bhamra<br />

Henry Ford II<br />

High School<br />

2ND PLACE<br />

Adam Clarke<br />

and Scott Proulx<br />

Walled Lake<br />

Northern High School<br />

ENGINEERING TEAMS<br />

DESIGNED AND BUILT A<br />

BATTERY-OPERATED CAR<br />

AND COMPETED AGAINST<br />

EACH OTHER.<br />

COMPUTER PROGRAMMING<br />

CONTESTANTS SOLVED FIVE<br />

PROBLEMS WITHIN A TWO-<br />

HOUR PERIOD.<br />

3RD PLACE (TIE)<br />

Daniel Ryan<br />

and Mike Ryan<br />

Washington Academy<br />

Home School<br />

Bradley Schmidt<br />

and Jeremy Freimark<br />

Huron Valley Lutheran<br />

High School<br />

and information science. “Although we put the teams in an extreme programming situation for the<br />

contest, it was surprisingly like the crises that occasionally occur in the real world, when time limits<br />

and teamwork play a critical role in success.”<br />

“Considering the fact that the contestants were high school students, I think they did well,” says<br />

Kiumi Akingbehin, pr<strong>of</strong>essor <strong>of</strong> computer and information science.<br />

Eighteen teams participated in the computer programming competition, nearly double what was<br />

anticipated. Twenty teams participated in the engineering competition, also a higher number than<br />

expected. Alan Argento, pr<strong>of</strong>essor <strong>of</strong> mechanical engineering, and N. Natarajan, associate pr<strong>of</strong>essor<br />

<strong>of</strong> electrical and computer engineering, designed and supervised the contest.<br />

Each engineering team designed and built a battery-operated car using materials and equipment<br />

available in CECS labs. The teams then competed against each other for speed and distance during<br />

two trial runs. They were given the opportunity to observe problems with their vehicles and redesign<br />

them before the final competition.<br />

“The winning team completely redesigned their car between the first and second trial,” says<br />

Argento. “They ended up winning the competition in the final round by just one second over the<br />

second-place team.”<br />

UM-<strong>Dearborn</strong> students supervised the teams in the labs and then ran, timed, and scored the races.<br />

“I was impressed with the enthusiasm <strong>of</strong> the CECS student helpers as well as the high school students<br />

themselves,” says Argento. “I think we should do it again, especially if it helps bring more<br />

bright students to UM-<strong>Dearborn</strong> in the future.”<br />

Computer<br />

Programming<br />

Contest Winners<br />

1ST PLACE<br />

Eric Marion and<br />

Jake Poznanski<br />

Salem and<br />

Plymouth High Schools<br />

2ND PLACE<br />

Aaron C. Curley<br />

Good Counsel Home<br />

School<br />

3RD PLACE<br />

John Palgut and<br />

Dan Anthony<br />

Plymouth and<br />

Canton High Schools<br />

13


DEARBORN <strong>Engineer</strong><br />

Welcome, New Visiting Committee Members<br />

The college’s Visiting Committee provides insight,<br />

feedback, and advice about college programs and helps<br />

formulate ongoing strategic direction for the school. Please<br />

join us in welcoming our newest members.<br />

PATRICK BASSETT<br />

Director,<br />

Thermal Systems <strong>Engineer</strong>ing<br />

DENSO International America, Inc.<br />

As director <strong>of</strong> thermal<br />

systems engineering at<br />

DENSO International<br />

America, Inc. (DIAM), Patrick<br />

Bassett is responsible for<br />

all <strong>of</strong> DIAM’s thermal design<br />

and development business<br />

for General Motors. Bassett’s<br />

department designs and<br />

develops heating, ventilation, and air conditioning (HVAC)<br />

and powertrain cooling systems found on several General<br />

Motors models.<br />

Bassett began working at DIAM in 1987, joining the climate<br />

control department as a design engineer, and played a key<br />

role in DIAM’s HVAC business with Chrysler. He remained<br />

at DIAM until he began a two-year expatriate assignment<br />

at DENSO Corporation in 1994 working on a Toyota project.<br />

On Bassett’s return to DIAM, he led the team responsible<br />

for establishing and expanding DIAM’s thermal business<br />

with General Motors. In 2002, Bassett was promoted to<br />

his current position.<br />

Bassett is an alumnus <strong>of</strong> the <strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<br />

<strong>Dearborn</strong>, where he earned a bachelor <strong>of</strong> science in<br />

mechanical engineering in 1986. He is also a member <strong>of</strong> Tau<br />

Beta Pi <strong>Engineer</strong>ing Honor Society and SAE International.<br />

MARK PERLICK<br />

Corporate Vice President,<br />

Advanced Technology<br />

BorgWarner Inc.<br />

Mark Perlick has been<br />

corporate vice president,<br />

advanced technology, <strong>of</strong><br />

BorgWarner Inc. since July<br />

2005. Before taking on his<br />

current position, he was<br />

president <strong>of</strong> BorgWarner<br />

Transmission Systems<br />

from September 2004 until June 2005. This was preceded<br />

by his tenure as acting president <strong>of</strong> Transmission Systems<br />

from November 2003 until August 2004. Perlick also held<br />

positions as vice president, engineering, <strong>of</strong> TorqTransfer<br />

Systems from February 1999 until October 2003 and acting<br />

president <strong>of</strong> TorqTransfer Systems from February 2002 to<br />

December 2002.<br />

From 1990 to 2002, Perlick worked at General Motors<br />

Corporation as chief engineer in several areas, including<br />

continuously variable transmissions, transmission launch<br />

center, and 4T40E transmission. He also served as manager<br />

<strong>of</strong> production programs.<br />

Perlick graduated from the General Motors Institute with a<br />

bachelor’s degree in mechanical engineering. He is also a<br />

member <strong>of</strong> SAE International.<br />

DAVID T. SZCZUPAK<br />

Group Vice President,<br />

Manufacturing<br />

Ford Motor Company<br />

David T. Szczupak is group<br />

vice president, manufacturing,<br />

the Americas, a position<br />

he has held since November<br />

2005. He oversees all<br />

assembly, stamping, and<br />

powertrain operations and<br />

engineering. This includes<br />

43 manufacturing plants in<br />

the U.S., Canada, and Mexico.<br />

Additionally, he is responsible for material planning<br />

and logistics, advanced and manufacturing engineering,<br />

and Ford Land.<br />

Prior to this assignment, Szczupak served as vice president,<br />

powertrain operations, where he was responsible for engine<br />

and transmission engineering worldwide and for powertrain<br />

manufacturing in North America.<br />

From April 1999 to October 2001, Szczupak was a chief<br />

engineer for powertrain operations, leading powertrain<br />

engineering development and strategy for all Ford Motor<br />

Company brands.<br />

Szczupak joined Jaguar in 1985 as a senior manager in<br />

advanced powertrain. He went on to serve in a number <strong>of</strong><br />

chief engineering and management positions in Jaguar’s<br />

engine operations. In his last Jaguar assignment, he was<br />

chief program engineer for Jaguar S-Type.<br />

Szczupak holds a master’s degree in automotive<br />

engineering from Cranfield Institute <strong>of</strong> Technology in<br />

the United Kingdom. He currently serves on the board<br />

<strong>of</strong> directors for Volvo Car Corporation.<br />

14


SPRING <strong>2006</strong><br />

Visteon Driving Simulator Gift Enables<br />

New Research Horizons at IAVS<br />

Thanks to the generosity <strong>of</strong> Visteon,<br />

the Institute for Advanced Vehicle Systems<br />

(IAVS) now owns a municipal driving simulator.<br />

The gift was made possible by Visteon’s<br />

John Kill, senior vice president and president,<br />

North America Customer Group; Al Woodliff,<br />

director <strong>of</strong> Advanced Business Development;<br />

and Mark Jarvis and Greg Sadler, technology<br />

acquisition managers, Advanced Cross-Systems<br />

Development.<br />

The driving simulator, created by FAAC <strong>of</strong><br />

Ann Arbor and installed by FAAC’s director <strong>of</strong><br />

commercial vehicle operations, Steve Olsen,<br />

was originally created to teach advanced driving<br />

skills in emergency situations through re-creating<br />

various driving conditions in a virtual environment.<br />

The simulator was recently installed<br />

in the <strong>Engineer</strong>ing Complex and will be moved<br />

to IAVS’ new quarters once they are completed.<br />

The new building’s high ceilings will accommodate<br />

the driving simulator’s moving base, which<br />

can raise the simulator up and down by several feet.<br />

“We will use it not as a driver training tool but as<br />

a research tool,” says IAVS director Roger Shulze. “That<br />

means that we will operate it somewhat differently than<br />

was originally intended. Instead <strong>of</strong> providing multiple,<br />

slightly different driving events, we want to be able to<br />

reproduce precisely the same event over and over again in<br />

order to acquire statistical data.”<br />

The simulator is available to pr<strong>of</strong>essors for research, to<br />

graduate students for their capstone design projects, and<br />

to undergraduates for senior design projects. Several pr<strong>of</strong>essors<br />

have already lined up project plans.<br />

Assistant pr<strong>of</strong>essor Taehyun Shim will use the driving<br />

simulator in his research on incorporating human driver<br />

interaction into the design <strong>of</strong> integrated chassis control<br />

systems. “In recent years, the use <strong>of</strong> electronic control<br />

systems, like anti-lock braking and active steering control,<br />

has become increasingly popular in passenger vehicles,”<br />

says Shim. “Although these systems greatly improve the<br />

safety and adaptability <strong>of</strong> the vehicle to environmental<br />

variations, the driver’s responsive abilities ultimately<br />

determine its overall performance. I’m excited about using<br />

this simulator because not much systematic research<br />

has yet been done on how major differences in driving<br />

TAEHYUN SHIM WILL USE THE DRIVING SIMULATOR IN HIS RESESARCH<br />

behavior among, say, expert vs. novice drivers or old vs.<br />

young drivers might be incorporated in improving these<br />

systems.”<br />

Xiangyang Li, assistant pr<strong>of</strong>essor <strong>of</strong> industrial and manufacturing<br />

systems engineering, looks forward to studying<br />

actual “drivers” in order to create computational models,<br />

using artificial intelligence, cognitive science, and humancomputer<br />

interaction (HCI) principles. “We’re looking<br />

at creating a comprehensive driver modeling tool that<br />

captures and understands the various aspects <strong>of</strong> a human<br />

driver in a practical operating setting. Using such a model<br />

helps us gain insight into user cognition processes like<br />

memory overload and cognition bottleneck.”<br />

Other potential projects include the optimization <strong>of</strong><br />

“infotainment” displays, lane departure warning systems,<br />

“smart” road signs that calculate a safe speed or a safe<br />

distance to the car ahead based on road and ambient<br />

conditions, and driver distraction studies.<br />

“We have become one <strong>of</strong> a very small number <strong>of</strong> universities<br />

with a driving simulator with a moving base,” says<br />

Shulze. “Visteon’s gift puts us in the driver’s seat for<br />

human factors research—or, to be more precise, it puts<br />

us in the driving simulator’s seat.”<br />

15


DEARBORN <strong>Engineer</strong><br />

New Development Director Mike Stein<br />

MICHAEL J. STEIN, CFRE<br />

Director <strong>of</strong> Development<br />

When Mike Stein, the College <strong>of</strong><br />

<strong>Engineer</strong>ing and Computer Science’s<br />

director <strong>of</strong> development, joined the staff<br />

last July, he was in effect simply returning<br />

home. “My family is from the Toledo, Ohio,<br />

area,” he says. “I grew up around here.<br />

My wife and I have many long-time friends<br />

here. I’ve always thought <strong>of</strong> <strong>University</strong> <strong>of</strong><br />

<strong>Michigan</strong> as a great place, so when the<br />

opportunity arose to take the position, it<br />

was an easy decision.”<br />

Stein, who has worked in development for<br />

the Boy Scouts <strong>of</strong> America and for Judson<br />

College in the Chicago area for the past<br />

15 years, moved with his wife and children<br />

back to Toledo when he took on the task <strong>of</strong><br />

working with UM-<strong>Dearborn</strong>’s engineering<br />

and computer science alumni. “My job is<br />

to work with alumni and other individuals<br />

interested in giving back to the school in some way,”<br />

he says. “I help them find a means to do that, whether<br />

it’s coming to the campus to speak to current students<br />

about their experiences, serving on an advisory<br />

committee, or simply giving financially.”<br />

This is the first time the college has been able to provide<br />

this level <strong>of</strong> support for alumni, and Stein finds that<br />

exciting. “In my short time here, I’ve met a number<br />

<strong>of</strong> people who have said they’ve been interested in<br />

reconnecting or giving something back to the school for a<br />

long time,” he says. “Now I’m helping them do that.”<br />

Stein has a bachelor’s degree in administrative services<br />

from the <strong>University</strong> <strong>of</strong> Toledo and his Certified Fund<br />

Raising Executive (CFRE) designation. In his spare time,<br />

he is an avid Harley Davidson rider. “I got rid <strong>of</strong> my bike<br />

after the kids were born,” he says, “but a few years ago,<br />

my wife suggested we go out and buy another one. I<br />

had to pinch myself. Now she has a license for it, too.<br />

We duke it out over who gets to ride it.”<br />

In Memoriam<br />

NORMAN GJOSTEIN, PH.D.<br />

Norman Gjostein passed away on April 5, <strong>2006</strong>. He was<br />

a retired director <strong>of</strong> research at Ford Motor Company<br />

and a clinical pr<strong>of</strong>essor <strong>of</strong> electrical and computer<br />

engineering at the <strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong>.<br />

Gjostein was a member <strong>of</strong> the National Academy <strong>of</strong><br />

<strong>Engineer</strong>ing, American Society <strong>of</strong> Metals (former<br />

Trustee), American Institute <strong>of</strong> Mining and Metallurgical<br />

<strong>Engineer</strong>s, <strong>Engineer</strong>ing Society <strong>of</strong> Detroit (Fellow,<br />

former board member and former Gold Award for Man<br />

<strong>of</strong> the Year), Sigma Xi, Tau Beta Pi, Phi Lambda Upsilon,<br />

and an Evans Scholar. He was also a member <strong>of</strong> the<br />

<strong>Dearborn</strong> Kiwanis and Phoenix Club.<br />

WILLIAM SPURGEON, PH.D.<br />

William Spurgeon passed away on February 6, <strong>2006</strong>.<br />

Spurgeon came to the <strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong> in<br />

October 1985 and left the university in 1992. He was pr<strong>of</strong>essor<br />

<strong>of</strong> industrial and systems engineering and director <strong>of</strong> the<br />

manufacturing systems engineering program/laboratory during<br />

his tenure in the College <strong>of</strong> <strong>Engineer</strong>ing and Computer<br />

Science. Prior to his work at the university, he was director <strong>of</strong><br />

the National Science Foundation’s production research program.<br />

He had also served on the faculties <strong>of</strong> the <strong>University</strong><br />

<strong>of</strong> Cincinnati and the <strong>University</strong> <strong>of</strong> Detroit. Spurgeon was a<br />

recipient <strong>of</strong> the Arch T. Colwell Merit Award from the Society<br />

<strong>of</strong> Automotive <strong>Engineer</strong>s and the Joseph A. Siegel Memorial<br />

Award <strong>of</strong> the Society <strong>of</strong> Manufacturing <strong>Engineer</strong>s.<br />

16


SPRING <strong>2006</strong><br />

Faculty Research Awards<br />

ALAN ARGENTO, pr<strong>of</strong>essor, and PRAVANSU<br />

MOHANTY, associate pr<strong>of</strong>essor, both <strong>of</strong> mechanical<br />

engineering, were awarded $6,000 from the National<br />

Science Foundation (NSF) for their project “Strain Rate<br />

Dependent Properties <strong>of</strong> Shape Memory Polymers.”<br />

JIRACHAI BUDDHAKULSOMSIRI, assistant<br />

pr<strong>of</strong>essor <strong>of</strong> industrial and manufacturing systems<br />

engineering, has received a $15,000 grant from the<br />

Rackham Graduate School in support <strong>of</strong> research to<br />

develop a new method for identifying relationships<br />

among warranty claims, leading to improved quality<br />

control and cost effectiveness in the industry.<br />

ROBERTO KAMPFNER, associate pr<strong>of</strong>essor <strong>of</strong><br />

computer and information science, received $8,200 from<br />

the <strong>University</strong> <strong>of</strong> <strong>Michigan</strong> Office <strong>of</strong> the Vice President for<br />

Research (OVPR) Faculty Grants and Awards Program for<br />

his project “Computer-Based Tool for the Analysis <strong>of</strong> the<br />

Information Needs <strong>of</strong> Organizational Functions.”<br />

CAROLE MEI, assistant pr<strong>of</strong>essor <strong>of</strong> mechanical<br />

engineering, received $15,000 from TRW, Inc. for her<br />

project “Wave Approach in Disc Brake Squeal Suppression.”<br />

PRAVANSU MOHANTY, associate pr<strong>of</strong>essor <strong>of</strong><br />

mechanical engineering, has received $83,512 in additional<br />

funding from the Department <strong>of</strong> the Army to support<br />

specialized testing and evaluation <strong>of</strong> materials associated<br />

with his thermal spray technology project.<br />

PRAVANSU MOHANTY, associate pr<strong>of</strong>essor <strong>of</strong><br />

mechanical engineering; ALAN ARGENTO, pr<strong>of</strong>essor<br />

<strong>of</strong> mechanical engineering; and SUBRATA SENGUPTA,<br />

dean, have received continuing funding <strong>of</strong> $337,032<br />

from the Department <strong>of</strong> the Army to support the ongoing<br />

development <strong>of</strong> thermal spray technology.<br />

YI LU MURPHEY, pr<strong>of</strong>essor <strong>of</strong> electrical and computer<br />

engineering, received funding in the amount <strong>of</strong> $30,000<br />

from TRW, Inc. for her collision avoidance and pre-crash<br />

detection research.<br />

Murphey also received $69,971 from the U.S. Army TACOM<br />

for her project “Cognitive Electric Power Management in<br />

Military Vehicular Systems Using Artificial-Intelligence-<br />

Based Methodologies and Adaptive Control Techniques.”<br />

ERIC RATTS, associate pr<strong>of</strong>essor <strong>of</strong> mechanical<br />

engineering, received $10,000 from the <strong>University</strong> <strong>of</strong><br />

<strong>Michigan</strong> OVPR Faculty Grants and Awards Program<br />

for his project “An Alternative Heat Pump Based on<br />

the Reversed Ericsson Gas Cycle.”<br />

PAUL RICHARDSON, associate pr<strong>of</strong>essor <strong>of</strong> electrical<br />

and computer engineering, received $66,967 from the<br />

U.S. Army<br />

Vetronics<br />

Institute<br />

for his<br />

Vetronics<br />

workshop<br />

series.<br />

These<br />

workshops<br />

will<br />

keep the<br />

Intelligent<br />

Systems<br />

Division, as<br />

YI LU MURPHEY, PROFESSOR OF ELECTRICAL<br />

AND COMPUTER ENGINEERING<br />

well as the rest <strong>of</strong> the research community, up to date on<br />

the latest technologies. Richardson also received $78,499<br />

to continue his project “Light Armored Vehicle (LMV)<br />

Command and Control (C2) System Upgrade Support.”<br />

TARIQ SHAMIM, associate pr<strong>of</strong>essor <strong>of</strong> mechanical<br />

engineering, was awarded $10,000 from Visteon<br />

Corporation for his project, “Development <strong>of</strong> a Water<br />

Shedding Model.” Shamim also has received $40,000 from<br />

Ford Motor Company’s <strong>University</strong> Research Program to<br />

support research that will help develop effective emissions<br />

control technologies for lean-burn vehicles.<br />

JIE SHEN, assistant pr<strong>of</strong>essor <strong>of</strong> computer and information<br />

science; C.L. CHOW, pr<strong>of</strong>essor <strong>of</strong> mechanical engineering;<br />

DAVID YOON, associate pr<strong>of</strong>essor <strong>of</strong> computer<br />

and information science; and YI LU MURPHEY, pr<strong>of</strong>essor<br />

<strong>of</strong> electrical and computer engineering, received $114,116<br />

from the NSF for their project “MRI: Acquisition <strong>of</strong> a Laser<br />

Sensor, Computer Workstations, and a 3D SynthaGram<br />

Monitor for Research in Virtual <strong>Engineer</strong>ing.”<br />

WEIDONG XIANG, assistant pr<strong>of</strong>essor <strong>of</strong> electrical and<br />

computer engineering, received a Rackham Graduate<br />

School fellowship and grant for $14,980 to implement a<br />

“wireless access vehicular environments” testbed. This<br />

project will provide a prototype for protocol testing <strong>of</strong><br />

wireless access systems in automobiles.<br />

OLEG ZIKANOV, associate pr<strong>of</strong>essor <strong>of</strong> mechanical<br />

engineering, received additional funding in the amount <strong>of</strong><br />

$117,382 from the U.S. Department <strong>of</strong> Energy for development<br />

<strong>of</strong> computer models <strong>of</strong> turbulence in steel and aluminum<br />

manufacturing.<br />

Zikanov also has received $6,000 from the U.S. Civilian<br />

Research and Development Foundation for a project that<br />

will help with the development <strong>of</strong> improved techniques<br />

for oil recovery. This is part <strong>of</strong> an international cooperative<br />

project with Perm State <strong>University</strong> in Russia.<br />

17


DEARBORN <strong>Engineer</strong><br />

COLLEGE OF ENGINEERING<br />

AND COMPUTER SCIENCE<br />

2005 DONORS<br />

CORPORATIONS<br />

Alpha Stamping Company<br />

Altair <strong>Engineer</strong>ing, Inc.<br />

American Axle & Manufacturing<br />

Ford Motor Company<br />

The Gates Corporation<br />

Micros<strong>of</strong>t Corporation<br />

Society <strong>of</strong> Automotive <strong>Engineer</strong>s<br />

ABOVE: ERIC RIDENOUR, CHIEF OPERATING OFFICER, DAIMLERCHRYSLER CORPORATION<br />

The DaimlerChrysler Corporation Fund again donated generously to the College<br />

STM Power, Inc.<br />

<strong>of</strong> <strong>Engineer</strong>ing and Computer Science during 2005. A gift <strong>of</strong> $86,500 will support a<br />

variety <strong>of</strong> initiatives, including women and minority scholarships;<br />

the campus chapters <strong>of</strong> the Society <strong>of</strong> Women <strong>Engineer</strong>s and the National Society<br />

<strong>of</strong> Black <strong>Engineer</strong>s; the Challenge X student competition; and the summer bridge<br />

program in math. Additionally, the award will benefit collaborative work conducted<br />

through the college's Institute for Advanced Vehicle Systems and the Henry W.<br />

ONE ASPECT OF THE PLANNED ENGINEERING LABORATORY BUILDING ADDITION<br />

Patton Center for <strong>Engineer</strong>ing Education and Practice.<br />

FOUNDATIONS<br />

TRW Automotive Fund<br />

BorgWarner Foundation, Inc.<br />

Alumni, Companies,<br />

and Partners<br />

Key to Success<br />

Collins & Aikman Foundation<br />

DaimlerChrysler Corporation Fund<br />

DENSO North America Foundation<br />

DTE Energy Foundation<br />

Ford Motor Company Fund<br />

General Motors Foundation<br />

Richard E. and Sandra J. Dauch<br />

Family Foundation<br />

The American Society<br />

for <strong>Engineer</strong>ing Education<br />

DAUCH FAMILY<br />

FOUNDATION<br />

18<br />

Timothy M. and<br />

M. Elizabeth Manganello Fund<br />

TRW Foundation<br />

SUBRATA SENGUPTA<br />

AND ROMAN KRYGIER,<br />

FORMER GROUP VICE<br />

PRESIDENT, GLOBAL<br />

MANUFACTURING AND<br />

QUALITY, FORD MOTOR<br />

COMPANY


SPRING <strong>2006</strong><br />

Diverse Scholarships Allow<br />

Students to Focus on Education<br />

Scholarship, Donna National J. Goddard Science Foundation Scholarship, Subrata Sengupta<br />

Frederick P. and Violet Sharpe Endowed Scholarship, and<br />

Eric K. Haupt<br />

Demetrios Serakos<br />

the Henry Patton II Scholarship.<br />

John D. Hervey<br />

Mary L. Severance<br />

Some awards go to outstanding women or underrepre-<br />

Robert W. and Elina<br />

Jie Shen<br />

Hildebrand<br />

Suzanne T. Shomsky<br />

John S. Kozar<br />

Roger C. Shulze<br />

Daniel E. Little<br />

Reiko Tanese<br />

D. M. Lucente<br />

Marlin U. Thomas<br />

Pankaj K. Mallick<br />

Edward M. Vuylsteke<br />

PAUL RICHARDSON<br />

Julius G. Marth<br />

Hal W. Wolfe<br />

R. Andrew Martin, Jr.<br />

To remain competitive and to help ensure academic success,<br />

universities must invest in their students, and the DaimlerChrysler, Ford Motor Company, and Detroit<br />

sented minority students, including scholarships from<br />

<strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong> is no exception. The Edison. These students must maintain GPAs <strong>of</strong> at least<br />

College <strong>of</strong> <strong>Engineer</strong>ing and Computer Science (CECS) 3.0 and must outline their reasons for choosing their<br />

<strong>of</strong>fers a range <strong>of</strong> scholarships, based on merit and need, to career path. Others, like the Csonka and Sharpe scholarships,<br />

take into account the student’s ethnicity and<br />

a broad spectrum <strong>of</strong> promising students. A primary goal<br />

continues to be an increase in the number and diversity <strong>of</strong> background in addition to requiring outstanding academic<br />

scholarships for which students can apply.<br />

achievement.<br />

DENSO NORTH AMERICA<br />

FOUNDATION'S Keshav Varde, GIFT associate WILL PROVIDE dean <strong>of</strong> CECS and pr<strong>of</strong>essor <strong>of</strong> Different scholarships are available depending on class<br />

A NEW CLIMATE CONTROL<br />

mechanical engineering, chairs the scholarship committee<br />

that recommends award recipients to the dean. He and National Science Foundation scholarships, while<br />

year. Incoming freshmen are eligible for the Ford, Patton,<br />

LABORATORY<br />

also plans, designs, and implements the Summer Bridge the DaimlerChrysler and Detroit Edison scholarships are<br />

Program in math for students who are awarded certain awarded only to juniors or seniors.<br />

minority scholarships or funds.<br />

“Scholarships are important,” says Sengupta, “because<br />

“Scholarships don’t just help students financially, though even as the costs <strong>of</strong> education rise, education itself and<br />

that’s important,” says Varde. “They motivate students to the services it provides become increasingly necessary to<br />

do well in college because they reward students for excellent<br />

academic work. They also help attract good students part <strong>of</strong> education costs are borne by students having to<br />

compete in the modern world. In our culture, a significant<br />

and a diverse group <strong>of</strong> students who might not otherwise work. This delays graduation, creates disruption in their<br />

INDIVIDUALS<br />

ELINA AND ROBERT W. HILDEBRAND<br />

being able to continue their education, and takes away<br />

from time that could better be spent learning. While some<br />

be able to pursue engineering or computer science programs.<br />

That ultimately translates to benefit to the community<br />

in a more varied and talented workforce that has <strong>of</strong> these jobs can lead to good experience, the primary<br />

Edward J. Abeska<br />

Lalitha Natarajan<br />

been educated at a good institution.”<br />

focus for students should be attaining an education.<br />

Stephen L. Albertus<br />

Maura P. O’Kennedy Scholarships allow students to do that.”<br />

“We <strong>of</strong>fer both merit- and need-based scholarships,” says<br />

Richard C. Angelo, Sr.<br />

Howard Perkins III<br />

Dean Sengupta. “Merit scholarships allow us to bring in<br />

exceptional Haukur students Asgeirsson who raise the level <strong>of</strong> our Paul classes M. Progar<br />

and contribute to the education <strong>of</strong> all students. Needbased<br />

scholarships clearly bring in students who would<br />

Engin Atik<br />

Thomas K. Rothermel<br />

not otherwise Scott Chemello be able to attend our institution.” Van R. Sandstrom<br />

CECS <strong>of</strong>fers Harry approximately H. Cotterill, 90 Jr. scholarships, including John C. the Schultz<br />

DaimlerChrysler Matthew Minority D. Defever and Women Scholarship, Sandra Richard L. Scott<br />

A. Csonka Memorial Scholarship, CECS/Ford Freshman<br />

Alan E. Duncan<br />

Bardhyl R. Sejfulla<br />

Minority Scholarship, Detroit Edison Minority and Women<br />

ROGER C. SHULZE<br />

19


DEARBORN <strong>Engineer</strong><br />

Recognition Wall—Brick Program Donors<br />

$5,000 Level<br />

Syed Murtuza<br />

Richard Schaum<br />

Subrata Sengupta<br />

Malayappan Shridhar<br />

$1,000 Level<br />

Richard Anderson<br />

Labib F. Cheaito<br />

John Cole (2)<br />

Angelo Dimitriou<br />

Dennis James Kirch<strong>of</strong>f<br />

Ben Q. Li<br />

Robert Lust<br />

Ron Modreski<br />

Gregory Pochmara<br />

Roger and Barbara Shulze<br />

Brian G. Stewart<br />

Keshav and Lata Varde<br />

Craig A. Whitt<br />

$500 Level<br />

Diane L. McAskin Blankenship<br />

Robert D. Blankenship<br />

James Castelvetere<br />

Yubao Chen<br />

John Justin Correia<br />

Virgil W. Davis, Jr.<br />

Gregory C. Garcia<br />

Jeanne Girard<br />

Norman M. Haygood, Jr.<br />

Robert W. and Elina Hildebrand<br />

Brad Hodges<br />

Douglas C. Hodnicki<br />

William Brandon McCoy (2)<br />

Richard M. McMahon<br />

Kenneth Moore<br />

James and Sandra Muccioli<br />

Karen G. Pastula and Charles J. Dubauskas<br />

Phil Roussey<br />

Kathryn Tamborino<br />

Manoj Thomas<br />

Yi Zhang<br />

$250 Level<br />

Roger P. Allwin<br />

David H. Bayer<br />

Mahmoud Hani Bdeir<br />

Sharon R. Cislo<br />

Romildo DeOliveira<br />

David Dettling<br />

Jack M. Dickert<br />

Julio Duronio<br />

Andrew J. Flowerday<br />

Jason T. Forton<br />

Florian Frischmuth<br />

James Grose<br />

William Grosky (3)<br />

John William Harvey<br />

Charles W. Heal, Jr. (2)<br />

Thomas J. Helinski<br />

Henry Hojnacki<br />

Shinji Horibe<br />

Scott Horvath<br />

Joe Jackson<br />

Yvette Kline<br />

Robert N. Kramer<br />

Donald Krcmarik<br />

Douglas Kroll<br />

Estate <strong>of</strong> Janet Kroll<br />

Phillip D. Lavender<br />

Kirk Luckscheiter<br />

Robert Matsura<br />

William Brandon McCoy<br />

Bob McLure<br />

Abdul Lateef Muhiuddin<br />

Troy Mui<br />

Joan F. Osinski (2)<br />

Carl Osojnak<br />

John Pastula<br />

Frank R. Povilaitis<br />

Kenneth K. Prochnau<br />

Sriman Ramabhadran<br />

Maxwell B. Sanborn<br />

Christina Sears (Alpha Omega Epsilon)<br />

Jie Shen<br />

Taehyun Shim<br />

Michael J. Stein<br />

David C. Swanson<br />

Maria Welborne<br />

Chris Westphal<br />

David Yoon<br />

20<br />

Throughout its short history, the <strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong><br />

has benefited from gifts made through bequests, creating<br />

endowed pr<strong>of</strong>essorships, scholarships, and funds named in honor<br />

<strong>of</strong> generous donors who wished to give back to the university<br />

that prepared them so well for their life. For many donors, a<br />

bequest <strong>of</strong>fers the opportunity to make a gift from a will or living<br />

trust without affecting their current financial situation.<br />

A properly structured bequest allows a donor to specify the<br />

gift amount, outline the purpose <strong>of</strong> the gift, and identify the<br />

transfer <strong>of</strong> certain assets to minimize estate and other taxes.<br />

For more information on how to arrange a bequest for the College<br />

<strong>of</strong> <strong>Engineer</strong>ing and Computer Science, please contact Michael<br />

Stein, director <strong>of</strong> development for CECS, at 313-583-6744 or<br />

mjshd@umd.umich.edu.


Looking for Traditional Education<br />

with Global Accessibility?<br />

<strong>Engineer</strong>ing Pr<strong>of</strong>essional Development<br />

has what you need!<br />

Non-Credit Programs<br />

• Technical Seminars (both public and on-site)<br />

• Customized Training<br />

• Workshops<br />

• International Programs<br />

• Conferences<br />

Distance Learning Graduate Programs<br />

• Automotive Systems <strong>Engineer</strong>ing<br />

• S<strong>of</strong>tware <strong>Engineer</strong>ing<br />

• <strong>Engineer</strong>ing Management<br />

• Computer <strong>Engineer</strong>ing<br />

Graduate Certificate Programs<br />

Your source<br />

for exceptional<br />

lifelong learning<br />

opportunities<br />

• 14 Topic Areas Available<br />

• Some programs also available via distance<br />

learning<br />

Company Located Programs<br />

• Graduate and Undergraduate Degree Programs<br />

• Live at Corporate Site<br />

• Distance Learning<br />

• Combination <strong>of</strong> Two Delivery Modes<br />

<strong>Engineer</strong>ing Pr<strong>of</strong>essional Development<br />

Visit http://epd.umd.umich.edu<br />

or call 313-593-4000


Alumni Reception<br />

The college held its annual Alumni Reception on Wednesday, April 5. Alumni<br />

from several graduating classes gathered at the Hotel Pontchartrain in<br />

Detroit, MI, along with faculty members, current students, and staff members<br />

from the College <strong>of</strong> <strong>Engineer</strong>ing and Computer Science. This event is hosted<br />

each year by the CECS Alumni Affiliate and coincides with the annual SAE<br />

World Congress held at the Cobo Convention Center.<br />

ABOVE: CECS ALUMNI<br />

AFFILIATE MEMBERS HENRY<br />

HOJNACKI, ROBERT LUST,<br />

JOHN COLE, AND RICHARD<br />

ANDERSON<br />

Keep in touch<br />

What have you been doing since graduation? Share<br />

your news by using the form online to let us know<br />

about your pr<strong>of</strong>essional and personal successes.<br />

News is posted in the <strong>Dearborn</strong> <strong>Engineer</strong>.<br />

Visit www.engin.umd.umich.edu/alumni<br />

The <strong>University</strong> <strong>of</strong> <strong>Michigan</strong>-<strong>Dearborn</strong><br />

College <strong>of</strong> <strong>Engineer</strong>ing and Computer Science<br />

4901 Evergreen Road<br />

<strong>Dearborn</strong>, <strong>Michigan</strong> 48128–1491<br />

(313) 593-5290<br />

Nonpr<strong>of</strong>it Org.<br />

U.S. Postage<br />

PAID<br />

Permit No. 684<br />

<strong>Dearborn</strong>, MI<br />

CHANGE SERVICE REQUESTED

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